
In this task I'll show in PIPESIm WellBore Geometry & Tabular Setup
In this task I'll talk about PVT Analysais and Multiphase Flow Correlation
In this task I'll talk about different type of logs and integration of those (PVT-Tracer Log - PLT logging) in PIPESIM for analyze and repair damage well
In this task I'll present the theory of Nodal Analysis and the integration with PLT logging and Spinner Flow Meter for extimation of lateral insurance
In this task I'll present a guide tutorial of Nodal Analysis conduct in PIPESIM Softwarre
In this task I'll show Tubing Sizing in PIPESIM and Velocity Limits
In this task I'll show intergration of NMR Logging and in the second phase CBL Logging in diagnostic and project aof casing and cementing in PIPESIM
In this task I'll Perform an analysis of Modelling and Optimization of Well in PipeSism
In this task I'll present Casing Design ion PipeSim with Geomecchanical Assmenet Integrated with Sonic Log and FWI
In this task I'll show how generate Casing and Report in PipeSIM
In this task I'll Flow assurance in Pipeline : hydarate formation and -erosion corrosion analysis
In this task I'll show how use PIPESIM to CO2 Injectrion Erosion Corrision analysis of Pipe
In this task I'll show a complete exemple of Gas Pipeline Simulation
In this task I'll present the Subsea Tieback in PipeSIM
This course provides production, completion, and petroleum engineers with foundational skills to model wellbore hydraulics and optimize tubular configurations using the SLB PIPESIM steady-state multiphase flow simulator. Participants will learn to accurately dimension tubing and casing strings to achieve optimal production rates while maintaining flow assurance and well integrity.Through practical workflows, engineers will evaluate fluid properties, vertical lift performance (VLP), pressure drops, and velocity constraints across varied well geometries. The course it's subdivide in 6 module
1)Wellbore Geometry & Tubular Setup: Construct detailed well schematics in PIPESIM, defining casing programs, production tubing, liners, and surface equipment parameters (ID, OD, roughness, and wall thickness);
2) PVT & Multiphase Flow Correlations: Select appropriate fluid models (Black Oil vs. Compositional) and multiphase flow correlations (e.g., Beggs & Brill, Hagedorn & Brown, or mechanistic models) to accurately simulate pressure and temperature profiles;
3)Nodal Analysis & VLP Generation: Perform Nodal analysis at the bottomhole and wellhead to generate Inflow Performance Relationship (IPR) and VLP curves for evaluating tubing size impacts on deliverability;
4) Tubing Sizing & Velocity Limits: Conduct sensitivity analyses on inner diameters to prevent liquid loading in oversized tubing and erosional velocity or high friction losses in undersized tubing;
5) Casing Annulus Hydraulics: Model casing-tubing annular flow dynamics, pressure ratings, and gas-lift or annular injection performance;
6) Flow Assurance Constraints: Identify flow regime transitions, liquid holdup, and thermal performance to safeguard tubular integrity under varying production rates.